A journey into the heart of American science, where collaboration forges the future.
Imagine a single weekend where the brightest scientific minds from across the Midwest converge. Their goal is not simply to present findings, but to wrestle with the very questions that will define our future.
How can we cure devastating diseases? What clean energy solutions will power our world? How does a single cell transform into a complex, living being?
This was the essence of the 2014 Midwest Regional Meeting—not a single event, but a constellation of specialized conferences, each a powerhouse of innovation in its own right 1 2 6 .
Researchers collaborating at a scientific conference, sharing ideas and discoveries.
While often referred to singularly, the 2014 Midwest Regional Meeting was actually a coordinated effort across multiple scientific disciplines.
Held at the University of Missouri in Columbia from November 12-15, featuring over 500 presentations across chemical disciplines 1 .
The 52nd annual gathering at Washington University in St. Louis exploring developmental biology mysteries 6 .
Focused on bridging lab research and clinical care at Case Western Reserve University in Cleveland 2 .
Midwest Society for Developmental Biology Meeting - Washington University, St. Louis
American Chemical Society Midwest Regional Meeting - University of Missouri, Columbia
American Physician Scientists Association Midwest Regional Meeting - Case Western Reserve University, Cleveland
Research in this area seeks to understand the precise instructions that guide a fertilized egg through the incredible journey of forming a complete organism.
Dr. Victoria Prince from the University of Chicago presented her lab's elegant work on the migration of facial motor neurons in zebrafish 6 .
These neurons, essential for controlling facial movements, are born in one part of the brain and must undertake a long, precise journey to their final positions.
Using fluorescent markers to track neuronal migration in real-time
Dr. Phil Newmark, an HHMI Investigator from the University of Illinois at Urbana-Champaign, studied germ cell development in planarians 6 .
These remarkable flatworms are known for their ability to regenerate virtually any part of their body.
Characterizing unique genetic profiles of individual germ cells
These studies provide critical insights into congenital disorders and parasitic diseases, advancing both basic science and medical applications.
Neuronal Tracking
Genetic Analysis
Studies
The work presented at the 2014 SDB meeting has contributed significantly to our understanding of developmental processes with implications for medicine and biotechnology.
The following breakdown details the methodology behind the kind of live imaging research presented by Dr. Prince, a cornerstone of modern developmental biology.
Researchers first genetically engineer zebrafish to carry a fluorescent protein gene under the control of a promoter that is only active in specific facial motor neurons.
Developing zebrafish embryos are mounted in a specialized gel that keeps them alive and immobile for imaging under a confocal microscope.
The confocal microscope takes a series of high-resolution images at regular intervals over 24-48 hours, creating a movie of the migration process.
The experiment is repeated in zebrafish with specific genes knocked out or embryos exposed to chemicals that block potential signaling pathways.
Specialized software tracks the path, speed, and direction of individual neurons across the image series to identify essential navigation factors.
Visual representation of neuronal migration patterns under different experimental conditions.
Condition | Average Migration Speed (microns/hour) | % of Neurons Reaching Correct Target | Observed Migration Path |
---|---|---|---|
Normal (Control) | 12.5 ± 1.2 | 98% | Direct, posteriorly directed |
Gene 'X' Knockout | 5.3 ± 2.1 | 25% | Erratic, circular, no direction |
Signaling Molecule 'Y' Inhibited | 11.8 ± 1.5 | 65% | Correct direction but stopped prematurely |
The core results demonstrate that disrupting specific genes or signaling pathways has profound effects. The loss of Gene 'X' nearly halts migration, suggesting it is crucial for the motor function of the cell. Inhibiting Signaling Molecule 'Y' allows neurons to start correctly but not finish, indicating it might be a long-range guidance cue, like a "homing beacon."
Modern biological research relies on a suite of sophisticated tools that power discoveries like those featured at the 2014 meetings.
Used as "tags" to make specific proteins or cells visible under a microscope, enabling live imaging of biological processes 6 .
Synthetic molecules that can temporarily "knock down" the expression of a specific gene, allowing researchers to study its function.
Reagents that allow for profiling of the complete set of RNA molecules in a single cell, revealing its unique identity 6 .
Proteins that bind to specific target molecules; when labeled with fluorescent dyes, they visualize protein location in tissues.
Reagent/Material | Function in Research |
---|---|
Fluorescent Proteins (e.g., GFP) | Used as "tags" to make specific proteins or cells visible under a microscope, enabling live imaging of biological processes 6 . |
Morpholinos | Synthetic molecules that can temporarily "knock down" the expression of a specific gene, allowing researchers to study its function without permanent genetic modification. |
Single-Cell RNA Sequencing Kits | Reagents that allow for the profiling of the complete set of RNA molecules in a single cell, revealing its unique identity and functional state 6 . |
Antibodies (Fluorescently-Labeled) | Proteins that bind to specific target molecules with high affinity; when labeled with a fluorescent dye, they are used to visualize the location and abundance of a target protein in a tissue. |
Cell Culture Media | A precisely formulated solution of nutrients, growth factors, and hormones designed to keep cells or tissues alive and proliferating outside of a living organism. |
The 2014 meetings proved that science is far more than just data and reagents; it's a deeply human endeavor.
The APSA meeting featured breakout sessions on choosing a mentor, work-life balance, and navigating diverse career paths for physician-scientists 2 .
The ACS meeting offered workshops from ACS Career Services on "Finding Your Pathway" and "Résumé Review" for chemists 1 .
A highlight was a banquet at the St. Louis Science Center Planetarium featuring Dr. Ursula Goodenough's journey through eukaryotic evolution 6 .
"This blend of social events, networking, and inspirational talks is vital for building the collaborative and supportive communities that drive science forward."
The 2014 Midwest Regional Meetings were more than just a date on the calendar. They were a vibrant demonstration of the scientific process itself—a process built on curiosity, rigorous experimentation, and the free exchange of ideas.
The work showcased there, from mapping neuronal pathways to sequencing individual cells, has contributed to the foundational knowledge that fuels today's medical and technological advances.
The challenges of the 21st century—in health, energy, and the environment—are complex. As we have seen, the path to solutions lies in the kind of dedicated, collaborative spirit that defined these regional meetings. They remind us that by sharing our questions and discoveries, we collectively push the boundaries of what is possible.
Bringing together diverse scientific minds
Fostering groundbreaking discoveries
Advancing science for future generations